A multi-station nickel strip braiding and synchronous stamping device

Abstract

This utility model relates to the field of nickel sheet braiding and stamping technology, and discloses a multi-station synchronous stamping device for nickel sheet braiding and stamping, including a stamping frame, a nickel sheet braiding body, and a worktable. The stamping frame is provided on the top of the worktable, and multiple equidistant turbines are provided on the inner back of the stamping frame, which mesh with worm gears. The worm gears are connected to a motor through a connecting shaft. There are multiple equidistant synchronous drive shafts on the inner side of the stamping frame, with a turbine at one end and a stamping turntable at the other end. It is also equipped with multiple sets of corresponding stamping mechanisms. The stamping frame has a support frame plate, a first support plate, a second support plate, and a rotating sleeve. The two ends of the synchronous drive shafts rotate in the sleeve. The guide plate is between the two support plates and guided by a guide column. The stamping turntable is tangent to the guide plate. The nickel sheet braiding body in the slide groove of the worktable is located below the stamping end. The motor drives the worm gear and turbines to rotate through the connecting shaft, so that the synchronous drive shaft drives the stamping turntable to rotate, pushing the guide plate. Combined with the buffer spring, the stamping end reciprocates, completing the multi-station synchronous stamping.

Description

Technical Field

[0001] This utility model relates to the field of nickel sheet braiding and stamping technology, specifically a multi-station synchronous nickel sheet braiding and stamping device. Background Technology

[0002] Nickel strip braiding is an assembly formed by integrating multiple nickel strips at specific intervals and arrangements on a strip carrier. It is widely used in batteries, electronic components and other fields as a conductive connection or structural support component. During the production process, the nickel strip braiding needs to be stamped to form specific shapes, holes or connection structures to meet the assembly and performance requirements of different products. This stamping process not only needs to ensure the processing accuracy of individual nickel strips, but also needs to ensure the relative position accuracy of multiple nickel strips on the braiding. Therefore, there are high requirements for the synchronization and stability of the stamping equipment. Traditional nickel sheet taping and stamping devices mostly employ single-station or multi-station asynchronous drive methods. Single-station devices require repeated positioning and stamping, resulting in low production efficiency and difficulty in meeting the needs of large-scale production. On the other hand, multi-station asynchronous drive devices, due to the independent power sources of each station, are prone to inconsistent stamping rhythms, leading to decreased nickel sheet taping and stamping processing accuracy and defects such as dimensional deviations and positional misalignments. At the same time, the transmission structure of traditional devices is relatively complex, components wear out quickly, maintenance costs are high, and the impact force during the stamping process lacks effective buffering, which not only affects the stability of processing quality but also shortens the service life of the equipment, causing many inconveniences to production. To address these issues, we propose a multi-station synchronous nickel sheet taping and stamping device. Utility Model Content

[0003] To address the shortcomings of existing technologies, this invention provides a multi-station nickel sheet taping and stamping synchronous stamping device, which solves the aforementioned problems.

[0004] To achieve the above-mentioned objectives, this utility model provides the following technical solution: a multi-station nickel sheet taping and stamping synchronous stamping device, comprising: The worktable comprises a stamping frame, a nickel sheet braiding body, and a worktable. The top of the worktable is provided with symmetrically distributed support columns on both sides. The stamping frame is installed on the top of the support columns. A stamping motor is provided on the top left side of the stamping frame. Multiple equidistant turbines are provided on the inner back side of the stamping frame. Worms are meshed on the turbines. The worms are connected to the stamping motor through a connecting shaft. The nickel sheet braiding body is provided on the top inner side of the worktable. The synchronous drive shaft is set inside the stamping frame. Multiple synchronous drive shafts are distributed at equal intervals inside the stamping frame. A turbine is sleeved on one end of the synchronous drive shaft, and a stamping turntable is sleeved on the other end of the synchronous drive shaft. The stamping mechanism is located inside the stamping frame. The stamping mechanism is arranged in multiple groups at equal intervals. Each group of stamping mechanisms corresponds to the stamping turntable. The stamping mechanism consists of a guide plate, a buffer spring and a stamping end. The bottom end of the guide plate is provided with a stamping end, and a buffer spring is sleeved on the stamping end. The bottom end of the stamping end is located above the nickel sheet tape body.

[0005] Preferably, the top two sides of the stamping frame are provided with support plates, the bottom of the stamping frame is fixed with a first support plate, the first support plate is located at the inner center of the stamping frame, the bottom of the first support plate is provided with a second support plate, and the front and rear ends of the stamping frame are provided with a plurality of cylindrical rotating sleeves evenly distributed.

[0006] Preferably, the synchronous drive shaft is located inside the stamping frame, and the two ends of the synchronous drive shaft correspond to the inner sides of the rotating sleeve and are rotatably engaged. A symmetrical locking head is provided on the outer cylindrical surface of one end of the synchronous drive shaft, and a turbine is sleeved on one end of the synchronous drive shaft, with the turbine located between the two locking heads.

[0007] Preferably, a worm gear is engaged with the top outer side of the turbine, a platform is provided at the top left end of the stamping frame, a stamping motor is installed on the platform, the turbine is located between the first support plate and the inner back side of the stamping frame, the two worm gears are fixedly connected by a connecting shaft, the two outermost connecting shafts are located inside the support plate, and the output shaft of the stamping motor is connected to the connecting shaft through the support plate.

[0008] Preferably, the guide plate is disposed between the first support plate and the second support plate, and guide posts are provided on both sides of the top of the guide plate. The guide posts pass through the first support plate for guidance and engagement, and the synchronous drive shaft is located between the two guide posts. A stamping turntable is sleeved on the other end of the synchronous drive shaft, and the stamping turntable is located between the first support plate and the inner front end of the stamping frame.

[0009] Preferably, the center of the stamping turntable is located on one side of the center, and the cylindrical surface of the stamping turntable is tangentially fitted to the top of the guide plate. The bottom end of the guide plate is provided with a stamping end, the bottom end of which passes through the second support plate and is positioned above the worktable. A buffer spring is sleeved on the stamping end, and the buffer spring is located between the bottom end of the guide plate and the top end of the second support plate.

[0010] Preferably, the top inner side of the workbench is provided with a rectangular groove, and a nickel strip braiding body is provided inside the groove. The nickel strip braiding body is located below the stamping end, and support legs are provided on both sides of the bottom end of the workbench.

[0011] Compared with the prior art, this utility model provides a multi-station nickel sheet taping and stamping synchronous stamping device, which has the following beneficial effects: This multi-station nickel sheet taping synchronous stamping device uses a stamping motor to drive a worm gear via a connecting shaft. The worm gear meshes with a turbine, driving the synchronous drive shaft to rotate. Multiple synchronous drive shafts are driven by the same transmission system, achieving synchronized operation of multiple stamping mechanisms. This ensures consistent stamping rhythm at each stamping end, improving the consistency and precision of nickel sheet taping processing. The stamping turntable and guide plate work together, combined with buffer springs, to achieve the reciprocating motion of the stamping ends. The buffer springs alleviate the impact force during stamping, reduce component wear, extend the device's service life, and make the stamping action smoother. The plate is guided by guide columns between the first and second support plates to ensure the vertical movement of the stamping end, improving stamping accuracy and ensuring the quality of nickel sheet braiding. Multiple stamping mechanisms are equidistantly distributed, allowing for simultaneous multi-station processing of the nickel sheet braiding body. Combined with the conveying of nickel sheet braiding in the worktable chute, continuous synchronous stamping is achieved, significantly improving production efficiency. The layout of each component of the device is reasonable, with synchronous drive shafts and rotating sleeves working in coordination. Support columns and support legs provide stable support, resulting in a robust overall structure, reliable operation, reduced failure rate, and ease of daily maintenance. Attached Figure Description

[0012] Figure 1 This is a schematic diagram of the structure of this utility model; Figure 2 This is a schematic diagram of the structure of this utility model; Figure 3 This is a schematic diagram of the stamping mechanism of this utility model; Figure 4 This is a schematic diagram of the stamping frame structure of this utility model.

[0013] In the diagram: 1. Stamping motor; 2. Connecting shaft; 3. Worm gear; 4. Turbine; 5. Synchronous drive shaft; 6. Stamping turntable; 7. Stamping frame; 8. Guide plate; 9. Buffer spring; 10. Stamping end; 11. Nickel sheet tape body; 12. Worktable; 13. Clamping block head; 14. Guide column; 15. Support frame plate; 16. Rotating sleeve; 17. First support plate; 18. Second support plate. Detailed Implementation

[0014] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0015] Please see Figure 1-4 A multi-station nickel sheet taping and stamping synchronous stamping device, comprising: The worktable 12 includes a stamping frame 7, a nickel strip braiding body 11, and a worktable 12. The top of the worktable 12 is provided with symmetrically distributed support columns on both sides. The stamping frame 7 is installed on the top of the support columns. The stamping motor 1 is provided on the top left side of the stamping frame 7. Multiple equidistant turbines 4 are provided on the inner back side of the stamping frame 7. Worms 3 are meshed on the turbines 4. The worms 3 are connected to the stamping motor 1 through a connecting shaft 2. The nickel strip braiding body 11 is provided on the top inner side of the worktable 12. A synchronous drive shaft 5 is set inside the stamping frame 7. The synchronous drive shaft 5 is distributed in multiple equidistant positions inside the stamping frame 7. A turbine 4 is sleeved on one end of the synchronous drive shaft 5, and a stamping turntable 6 is sleeved on the other end of the synchronous drive shaft 5. The stamping mechanism is located inside the stamping frame 7. The stamping mechanism is arranged in multiple groups at equal intervals. Each group of stamping mechanisms corresponds to the stamping turntable 6. The stamping mechanism consists of a guide plate 8, a buffer spring 9, and a stamping end 10. The bottom end of the guide plate 8 is provided with a stamping end 10. A buffer spring 9 is sleeved on the stamping end 10. The bottom end of the stamping end 10 is located above the nickel sheet braiding body 11.

[0016] Furthermore, the top two sides of the stamping frame 7 are provided with support plates 15, and the bottom of the stamping frame 7 is fixed with a first support plate 17. The first support plate 17 is located at the inner center of the stamping frame 7, and the bottom of the first support plate 17 is provided with a second support plate 18. The front and rear ends of the stamping frame 7 are provided with cylindrical rotating sleeves 16 that are evenly distributed, providing a basic frame for the installation and support of other components of the device. The multiple evenly distributed rotating sleeves 16 can provide stable support points for the rotation of the synchronous drive shaft 5, ensuring the accuracy and stability of the subsequent transmission and stamping component installation.

[0017] Furthermore, the synchronous drive shaft 5 is located inside the stamping frame 7, and both ends of the synchronous drive shaft 5 correspond to the inner sides of the rotating sleeve 16 and are rotatably engaged. Symmetrical locking heads 13 are provided on the outer cylindrical surface of one end of the synchronous drive shaft 5, and a turbine 4 is sleeved on one end of the synchronous drive shaft 5. The turbine 4 is located between the two locking heads 13, which clarifies the installation method of the synchronous drive shaft 5 in the stamping frame 7. Flexible rotation is achieved through the rotational engagement of both ends with the inside of the rotating sleeve 16. The two locking heads 13 play a limiting and fixing role for the turbine 4, ensuring that the synchronous drive shaft 5 can rotate stably and accurately with the turbine 4, avoiding displacement of the turbine 4 on the shaft, and ensuring the effectiveness of power transmission.

[0018] Furthermore, a worm gear 3 is meshed with the top outer side of the turbine 4, and a platform is provided at the top left end of the stamping frame 7. A stamping motor 1 is installed on the platform. The turbine 4 is located between the first support plate 17 and the inner back side of the stamping frame 7. The two worm gears 3 are fixedly connected by connecting shafts 2. The two outermost connecting shafts 2 are located inside the support frame plate 15, and the output shaft of the stamping motor 1 is connected to the connecting shafts 2 through the support frame plate 15. The stamping motor 1 transmits power to the worm gears 3 through the connecting shafts 2, and the worm gears 3 then drive the turbine 4 to rotate. The linkage of multiple connecting shafts 5 realizes the synchronous rotation of all worm gears 3, so that the power can be efficiently and synchronously transmitted to each turbine 4, providing power guarantee for subsequent multi-station synchronous stamping and ensuring the consistency of power transmission of each component.

[0019] Furthermore, the guide plate 8 is positioned between the first support plate 17 and the second support plate 18. Guide posts 14 are provided on both sides of the top of the guide plate 8. The guide posts 14 pass through the first support plate 17 for guidance and engagement. The synchronous drive shaft 5 is located between the two guide posts 14. A stamping turntable 6 is sleeved on the other end of the synchronous drive shaft 5. The stamping turntable 6 is located between the first support plate 17 and the inner front end of the stamping frame 7, providing guidance and movement space for the guide plate 8. The guide posts 14 ensure that the guide plate 8 moves in the vertical direction. The synchronous drive shaft 5 drives the stamping turntable 6 to rotate, which restricts the movement direction of the guide plate 8 and ensures the accuracy of its movement trajectory, creating conditions for the precise stamping of the stamping end 10.

[0020] Furthermore, the center of the stamping turntable 6 is located on one side of the center, and the cylindrical surface of the stamping turntable 6 is tangentially fitted to the top of the guide plate 8. The bottom end of the guide plate 8 is provided with a stamping end 10, and the bottom end of the stamping end 10 passes through the second support plate 18 and is set above the worktable 12. A buffer spring 9 is sleeved on the stamping end 10. The buffer spring 9 is located between the bottom end of the guide plate 8 and the top end of the second support plate 18. The eccentric rotation of the stamping turntable 6 pushes the guide plate 8 to move up and down. The buffer spring 9 buffers the impact force during stamping, realizing the reciprocating up and down movement of the stamping end 10 to complete the stamping action. The buffer spring 9 reduces the vibration and component wear during the stamping process, improves the stability of stamping and the service life of the equipment.

[0021] Furthermore, a rectangular groove is provided on the inner side of the top of the workbench 12. The nickel strip braiding body 11 is arranged inside the groove. The nickel strip braiding body 11 is located below the stamping end 10. Support legs are provided on both sides of the bottom of the workbench 12 to provide a conveying track and positioning for the nickel strip braiding body 11. The support legs support the entire workbench 12 to ensure that the nickel strip braiding body 11 can be stably and accurately conveyed to the stamping position. The support legs ensure the stability of the workbench 12 and provide a stable working platform for the stamping operation.

[0022] Structural Description: Stamping motor 1: Installed on the top left platform of stamping frame 7, it is the power source of the device. The output shaft transmits power through connecting shaft 2 to drive the subsequent components to operate and provide power for stamping. Connecting shaft 2: connects worm 3 to stamping motor 1, transmits motor power to worm 3, and links adjacent worms 3 to ensure synchronous rotation of multiple worms and achieve efficient power transmission; Worm 3: meshes with turbine 4, receives power from connecting shaft 2 and drives turbine 4 to rotate. The linkage of multiple worms ensures that each turbine is synchronized, laying the foundation for synchronous stamping. Turbine 4: It is fitted onto one end of the synchronous drive shaft 5 and meshes with the worm 3. It transmits the power of the worm to the synchronous drive shaft 5, causing it to rotate. It is a key component for power transmission. Synchronous drive shaft 5: Located inside the stamping frame 7, one end is connected to the turbine 4, and the other end is fitted with the stamping turntable 6. It transmits power and drives the turntable to rotate, realizing synchronous action of multiple stations. The stamping turntable 6 is fitted onto the other end of the synchronous drive shaft 5, with its center offset and tangent to the top of the guide plate 8. When it rotates, it pushes the guide plate up and down to drive the stamping process. Stamping frame 7: Supported by support columns, it houses components such as motors and turbines. Its inner support plate and rotating sleeve provide mounting support for each component, forming the frame of the device. Guide plate 8: Located between two support plates, its top end is pushed by the stamping turntable, and its bottom end is connected to the stamping end 10. It moves vertically under the guidance of the guide column, driving the end to be stamped. Buffer spring 9: Sleeve onto the stamping end 10, located between the guide plate 8 and the second support plate 18, buffers the stamping impact force, reduces wear, and makes the stamping smooth; Stamping end 10: It is installed at the bottom of the guide plate 8, passes through the second support plate 18, and moves up and down under the drive of the guide plate to stamp the nickel strip braiding body 11. Nickel sheet braiding body 11: placed in the slide groove of the worktable 12, located below the stamping end 10, is the stamping processing object, and is conveyed to complete multi-station stamping in sequence; Workbench 12: The inner top of the table has a chute for conveying nickel sheet tape, and the bottom support legs provide support, providing a stable platform for stamping and ensuring smooth processing. Block 13: Symmetrically distributed at one end of the synchronous drive shaft 5, it limits the turbine 4 between the two to prevent turbine displacement and ensure stable power transmission. Guide column 14: Installed on both sides of the top of the guide plate 8, passing through the first support plate 17, guiding the guide plate to move vertically, and ensuring the accurate movement trajectory of the stamping end 10; Support plate 15: Connecting shafts 2 are provided inside on both sides of the top of the stamping frame 7 to support the connecting shafts and the motor output shaft, ensuring the stable operation of the power transmission components; Rotary sleeve 16: cylindrical and equidistantly distributed at the front and rear ends of the stamping frame 7, providing stable support for the rotational engagement of the two ends of the synchronous drive shaft 5. First support plate 17: Located at the center of the inner side of the stamping frame 7, it cooperates with the second support plate 18 to provide movement space for the guide plate 8, and to limit and guide it; Second support plate 18: At the bottom of the first support plate 17, the stamping end 10 passes through and cooperates with the guide plate 8 to compress the buffer spring 9 to assist in the smooth stamping process.

[0023] Working principle: When the device starts, the output shaft of the stamping motor 1 rotates, and the output shaft passes through the support frame plate 15 to transmit power to the connecting shaft 2, causing the connecting shaft 2 to drive the worm gear 3 fixed thereto to rotate synchronously. Since adjacent worm gears 3 are fixedly connected by the connecting shaft 2, and the outermost connecting shaft 2 is placed inside the support frame plate 15, all worm gears 3 form a linked rotation state. The worm gear 3 meshes with the turbine 4, and the turbine 4 is driven to rotate. The turbine 4 is sleeved on one end of the synchronous drive shaft 5 and is located between the two locking heads 13. Therefore, the synchronous drive shaft 5 rotates together with the turbine 4. The two ends of the synchronous drive shaft 5 rotate and engage inside the rotating sleeve 16. To ensure stable rotation within the stamping frame 7, when the synchronous drive shaft 5 rotates, both ends drive the stamping turntable 6 and the turbine 4 to move synchronously. Because the center of the stamping turntable 6 is off-center, its cylindrical surface is tangentially engaged with the top of the guide plate 8, generating a periodic pushing action on the guide plate 8 during rotation. The guide plate 8 is located between the first support plate 17 and the second support plate 18. The guide posts 14 on both sides of the top pass through the first support plate 17 to form a guiding engagement, ensuring that the guide plate 8 can only move in the vertical direction. When the protruding part of the stamping turntable 6 pushes against the guide plate 8, the guide plate 8 overcomes the elastic force of the buffer spring 9 and moves downwards; when the protruding part pushes against the guide plate 8, the guide plate 8 moves downwards against the elastic force of the buffer spring 9. Partial disengagement and reset of the buffer spring 9 push the guide plate 8 upwards back to its original position. This reciprocating motion of the guide plate 8 achieves its up-and-down movement. The stamping end 10 at the bottom of the guide plate 8 moves synchronously with the guide plate 8. Its bottom end passes through the second support plate 18 and faces the nickel strip braiding body 11 in the inner groove at the top of the worktable 12. When the guide plate 8 moves downwards, the stamping end 10 performs a stamping operation on the nickel strip braiding body 11 below; when it moves upwards, it disengages from the nickel strip braiding, completing one stamping cycle. Since the synchronous drive shafts 5 are distributed in multiple equidistant positions, each synchronous drive shaft 5 corresponds to a set of components consisting of the guide plate 8 and the buffer spring 9. The stamping mechanism, consisting of the stamping end 10, and all synchronous drive shafts 5 are driven by the same set of worm gear 3 and turbine 4 system, realizes the synchronous action of multiple stamping mechanisms. The nickel sheet tape body 11 is gradually conveyed in the slide groove of the worktable 12. When passing through each stamping station, the synchronous stamping end 10 completes the corresponding stamping processing in sequence, and finally realizes the continuous synchronous stamping operation of multi-station nickel sheet tape. The support column supports the stamping frame 7, and the support leg supports the worktable 12, providing a stable operating foundation for the device. The first support plate 17 and the second support plate 18 play a limiting and guiding role for the guide plate 8 and the stamping end 10 to ensure stamping accuracy.

[0024] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A multi-station nickel sheet taping and stamping synchronous stamping device, characterized in that, include: The worktable (12) includes a stamping frame (7), a nickel strip braiding body (11), and a worktable (12). The top of the worktable (12) is provided with symmetrically distributed support columns on both sides. The top of the support columns is equipped with the stamping frame (7). The top left side of the stamping frame (7) is provided with a stamping motor (1). The inner back side of the stamping frame (7) is provided with multiple equidistantly distributed turbines (4). The turbines (4) are meshed with worm gears (3). The worm gears (3) are connected to the stamping motor (1) through a connecting shaft (2). The top inner side of the worktable (12) is provided with the nickel strip braiding body (11). A synchronous drive shaft (5) is set inside the stamping frame (7). The synchronous drive shaft (5) is distributed in multiple equidistant ways inside the stamping frame (7). A turbine (4) is sleeved on one end of the synchronous drive shaft (5), and a stamping turntable (6) is sleeved on the other end of the synchronous drive shaft (5). The stamping mechanism is set inside the stamping frame (7). The stamping mechanism is arranged in multiple groups at equal intervals. Each group of stamping mechanisms corresponds to the stamping turntable (6). The stamping mechanism consists of a guide plate (8), a buffer spring (9) and a stamping end (10). The bottom end of the guide plate (8) is provided with a stamping end (10). A buffer spring (9) is sleeved on the stamping end (10). The bottom end of the stamping end (10) is located above the nickel sheet braiding body (11).

2. The multi-station nickel strip busing and synchronizing punching device according to claim 1, characterized in that, The top two sides of the stamping frame (7) are provided with support plates (15), and the bottom of the stamping frame (7) is fixed with a first support plate (17). The first support plate (17) is located at the inner center of the stamping frame (7). The bottom of the first support plate (17) is provided with a second support plate (18). The front and rear ends of the stamping frame (7) are provided with a cylindrical rotating sleeve (16) that is evenly distributed.

3. The multi-station nickel strip busing and synchronizing punching device according to claim 2, characterized in that, The synchronous drive shaft (5) is located inside the stamping frame (7), and the two ends of the synchronous drive shaft (5) correspond to the inner side of the rotating sleeve (16) and are rotated together. A symmetrical locking head (13) is provided on the outer cylindrical surface of one end of the synchronous drive shaft (5), and a turbine (4) is sleeved on one end of the synchronous drive shaft (5). The turbine (4) is located between the two locking heads (13).

4. The multi-station nickel strip busing and synchronizing punching device according to claim 3, characterized in that, The top outer side of the turbine (4) is engaged with a worm gear (3). The top left end of the stamping frame (7) is provided with a platform, on which a stamping motor (1) is installed. The turbine (4) is located between the first support plate (17) and the inner back side of the stamping frame (7). The two worm gears (3) are fixedly connected by a connecting shaft (2). The two outermost connecting shafts (2) are located inside the support frame plate (15), and the output shaft of the stamping motor (1) is connected to the connecting shaft (2) through the support frame plate (15).

5. The multi-station nickel strip busing and synchronizing punching device of claim 1, wherein, The guide plate (8) is located between the first support plate (17) and the second support plate (18). The top two sides of the guide plate (8) are provided with guide posts (14). The guide posts (14) pass through the first support plate (17) for guidance and engagement. The synchronous drive shaft (5) is located between the two guide posts (14). The other end of the synchronous drive shaft (5) is fitted with a stamping turntable (6). The stamping turntable (6) is located between the first support plate (17) and the inner front end of the stamping frame (7).

6. The multi-station nickel strip busing and synchronizing punching device of claim 5, wherein, The center of the stamping turntable (6) is located on one side of the center, and the cylindrical surface of the stamping turntable (6) is tangentially fitted to the top of the guide plate (8). The bottom end of the guide plate (8) is provided with a stamping end (10). The bottom end of the stamping end (10) passes through the second support plate (18) and is set above the worktable (12). A buffer spring (9) is sleeved on the stamping end (10). The buffer spring (9) is located between the bottom end of the guide plate (8) and the top end of the second support plate (18).

7. The multi-station nickel strip busing and synchronizing punching device of claim 1, wherein, The top inner side of the workbench (12) is provided with a rectangular slide groove, and a nickel strip braiding body (11) is provided inside the slide groove. The nickel strip braiding body (11) is located below the stamping end (10), and support legs are provided on both sides of the bottom end of the workbench (12).

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